A new method for task scheduling in fog‐based medical healthcare systems using a hybrid nature‐inspired algorithm

B. Wang, Peng Wu, Maryam Arefzaeh
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引用次数: 6

Abstract

The goal of the healthcare system is to offer a dependable and well‐organized solution for improving human's wellbeing. Examining a patient's history can assist clinicians in considering the patient's wants when building a healthcare system and providing service, resulting in increased patient satisfaction. Thus, healthcare is becoming a more competitive sector. Massive data volume, latency, response time, and security susceptibility are all difficulties resulting from this substantial increase in healthcare systems. As a famous distributed structure, fog computing might thus aid in the resolution of such problems. Processing parts are situated among end devices and cloud components in a fog computing infrastructure and run programs. This design is well suited to real‐time and low‐latency applications, like healthcare systems. Because task scheduling is an NP‐hard optimization issue in fog‐based medical healthcare systems, this work proposes a hybrid genetic algorithm and particle swarm optimization (GA‐PSO) strategy. A powerful single‐objective optimization technique is the GA‐PSO. Individuals in a novel generation are formed in GA‐PSO through mutation and crossover operations in GA‐PSO, which uses a redefined local optimization swarm. Hence, it may avoid local minimums and perform well in global searches. The study's goal in fog‐based medical healthcare systems is to lower the makespan and overall response time. The suggested technique is simulated in MATLAB and compared to the GA and PSO methods. The empirical findings confirmed the improved makespan, making the approach appropriate for medical and real‐time systems applications.
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一种基于雾的医疗保健系统任务调度的新方法,使用混合自然启发算法
医疗保健系统的目标是为改善人类健康提供一个可靠的、组织良好的解决方案。检查患者的病史可以帮助临床医生在建立医疗保健系统和提供服务时考虑患者的需求,从而提高患者的满意度。因此,医疗保健正在成为一个更具竞争力的行业。大量数据量、延迟、响应时间和安全敏感性都是医疗保健系统大幅增加所带来的困难。作为一种著名的分布式结构,雾计算可能有助于解决这类问题。处理部件位于雾计算基础设施中的终端设备和云组件之间,并运行程序。这种设计非常适合实时和低延迟的应用,如医疗保健系统。由于任务调度在基于雾的医疗保健系统中是一个NP - hard优化问题,本研究提出了一种混合遗传算法和粒子群优化(GA - PSO)策略。GA - PSO是一种强大的单目标优化技术。遗传-粒子群算法采用重新定义的局部优化群体,通过遗传-粒子群算法中的突变和交叉操作形成新一代个体。因此,它可以避免局部最小值,并在全局搜索中表现良好。该研究的目标是在基于雾的医疗保健系统是降低总时间和整体响应时间。在MATLAB中对该方法进行了仿真,并与遗传算法和粒子群算法进行了比较。实证结果证实了改进的完工时间,使该方法适用于医疗和实时系统应用。
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